-
Articles citing this article
-
Same authors
- Recommend this article
- Download citation
- Alert me if this article is cited
- Alert me if this article is corrected
|
|||||||||||||||
ESAIM: Proc., 1996, Vol. 1, pp. 363-375
DOI: 10.1051/proc:1996040
Numerical simulation of a thermodynamic refrigerator
Aniruddha Worlikar1, Omar M. Knio1 and Rupert Klein21 Department of Mechanical Engineering The Johns Hopkins University Baltimore, MD 21218, USA
2 Fachbereich Sicherheitstechnik Bergische Universität, Gauß-Str. 20 D-42097 Wuppertal, Germany
Abstract
A thermoacoustic device consists of two main components: (1) a resonance tube where the flow is characterized by length scales of the order of the acoustic wavelength, and (2) a stack of plates which are separated by distances much smaller than the acoustic wavelength. This effort focuses on the development of numerical schemes which overcome this scale disparity in an efficient manner. Two approaches are discussed in the paper. The first is a multiple-pressure-variable approach that is suitable for the simulation of resonance tube acoustics and for analyzing interactions between heat addition and long waves. The second is a multi-dimensional model of the stack region which is based on fast solution of the zero-Mach-number conservation equations.
© EDP Sciences, ESAIM 1996
| What is OpenURL? |
- If your librarian has set up your subscription with an OpenURL resolver, OpenURL links appear automatically on the abstract pages.
- You can define your own OpenURL resolver with your EDPS Account. In this case your choice will be given priority over that of your library.
- You can use an add-on for your browser (Firefox or I.E.) to display OpenURL links on a page (see http://www.openly.com/openurlref/). You should disable this module if you wish to use the OpenURL server that you or your library have defined.


BibSonomy
CiteUlike
Connotea
Del.icio.us
Digg
Facebook